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The complete sequence and comparative analysis of ape sex chromosomes

Author

Listed:
  • Kateryna D. Makova

    (Penn State University)

  • Brandon D. Pickett

    (National Institutes of Health)

  • Robert S. Harris

    (Penn State University)

  • Gabrielle A. Hartley

    (University of Connecticut)

  • Monika Cechova

    (University of California Santa Cruz)

  • Karol Pal

    (Penn State University)

  • Sergey Nurk

    (National Institutes of Health)

  • DongAhn Yoo

    (University of Washington School of Medicine)

  • Qiuhui Li

    (Johns Hopkins University)

  • Prajna Hebbar

    (University of California Santa Cruz)

  • Barbara C. McGrath

    (Penn State University)

  • Francesca Antonacci

    (Università degli Studi di Bari Aldo Moro)

  • Margaux Aubel

    (University of Münster)

  • Arjun Biddanda

    (Johns Hopkins University)

  • Matthew Borchers

    (Stowers Institute)

  • Erich Bornberg-Bauer

    (University of Münster
    MPI for Developmental Biology)

  • Gerard G. Bouffard

    (National Institutes of Health)

  • Shelise Y. Brooks

    (National Institutes of Health)

  • Lucia Carbone

    (Oregon Health and Science University
    Oregon National Primate Research Center)

  • Laura Carrel

    (Penn State University School of Medicine)

  • Andrew Carroll

    (Google)

  • Pi-Chuan Chang

    (Google)

  • Chen-Shan Chin

    (Foundation of Biological Data Sciences)

  • Daniel E. Cook

    (Google)

  • Sarah J. C. Craig

    (Penn State University)

  • Luciana Gennaro

    (Università degli Studi di Bari Aldo Moro)

  • Mark Diekhans

    (University of California Santa Cruz)

  • Amalia Dutra

    (National Institutes of Health)

  • Gage H. Garcia

    (University of Washington School of Medicine)

  • Patrick G. S. Grady

    (University of Connecticut)

  • Richard E. Green

    (University of California Santa Cruz)

  • Diana Haddad

    (National Institutes of Health)

  • Pille Hallast

    (The Jackson Laboratory for Genomic Medicine)

  • William T. Harvey

    (University of Washington School of Medicine)

  • Glenn Hickey

    (University of California Santa Cruz)

  • David A. Hillis

    (University of California Santa Barbara)

  • Savannah J. Hoyt

    (University of Connecticut)

  • Hyeonsoo Jeong

    (University of Washington School of Medicine)

  • Kaivan Kamali

    (Penn State University)

  • Sergei L. Kosakovsky Pond

    (Temple University)

  • Troy M. LaPolice

    (Penn State University)

  • Charles Lee

    (The Jackson Laboratory for Genomic Medicine)

  • Alexandra P. Lewis

    (University of Washington School of Medicine)

  • Yong-Hwee E. Loh

    (University of California Santa Barbara)

  • Patrick Masterson

    (National Institutes of Health)

  • Kelly M. McGarvey

    (National Institutes of Health)

  • Rajiv C. McCoy

    (Johns Hopkins University)

  • Paul Medvedev

    (Penn State University)

  • Karen H. Miga

    (University of California Santa Cruz)

  • Katherine M. Munson

    (University of Washington School of Medicine)

  • Evgenia Pak

    (National Institutes of Health)

  • Benedict Paten

    (University of California Santa Cruz)

  • Brendan J. Pinto

    (Arizona State University)

  • Tamara Potapova

    (Stowers Institute)

  • Arang Rhie

    (National Institutes of Health)

  • Joana L. Rocha

    (University of California Berkeley)

  • Fedor Ryabov

    (Masters Program in National Research, University Higher School of Economics)

  • Oliver A. Ryder

    (San Diego Zoological Society)

  • Samuel Sacco

    (University of California Santa Cruz)

  • Kishwar Shafin

    (Google)

  • Valery A. Shepelev

    (Institute of Molecular Genetics)

  • Viviane Slon

    (Tel Aviv University)

  • Steven J. Solar

    (National Institutes of Health)

  • Jessica M. Storer

    (University of Connecticut)

  • Peter H. Sudmant

    (University of California Berkeley)

  • Sweetalana

    (Penn State University)

  • Alex Sweeten

    (National Institutes of Health
    Johns Hopkins University)

  • Michael G. Tassia

    (Johns Hopkins University)

  • Françoise Thibaud-Nissen

    (National Institutes of Health)

  • Mario Ventura

    (Università degli Studi di Bari Aldo Moro)

  • Melissa A. Wilson

    (Arizona State University)

  • Alice C. Young

    (National Institutes of Health)

  • Huiqing Zeng

    (Penn State University)

  • Xinru Zhang

    (Penn State University)

  • Zachary A. Szpiech

    (Penn State University)

  • Christian D. Huber

    (Penn State University)

  • Jennifer L. Gerton

    (Stowers Institute)

  • Soojin V. Yi

    (University of California Santa Barbara)

  • Michael C. Schatz

    (Johns Hopkins University)

  • Ivan A. Alexandrov

    (Tel Aviv University)

  • Sergey Koren

    (National Institutes of Health)

  • Rachel J. O’Neill

    (University of Connecticut)

  • Evan E. Eichler

    (University of Washington School of Medicine
    University of Washington)

  • Adam M. Phillippy

    (National Institutes of Health)

Abstract

Apes possess two sex chromosomes—the male-specific Y chromosome and the X chromosome, which is present in both males and females. The Y chromosome is crucial for male reproduction, with deletions being linked to infertility1. The X chromosome is vital for reproduction and cognition2. Variation in mating patterns and brain function among apes suggests corresponding differences in their sex chromosomes. However, owing to their repetitive nature and incomplete reference assemblies, ape sex chromosomes have been challenging to study. Here, using the methodology developed for the telomere-to-telomere (T2T) human genome, we produced gapless assemblies of the X and Y chromosomes for five great apes (bonobo (Pan paniscus), chimpanzee (Pan troglodytes), western lowland gorilla (Gorilla gorilla gorilla), Bornean orangutan (Pongo pygmaeus) and Sumatran orangutan (Pongo abelii)) and a lesser ape (the siamang gibbon (Symphalangus syndactylus)), and untangled the intricacies of their evolution. Compared with the X chromosomes, the ape Y chromosomes vary greatly in size and have low alignability and high levels of structural rearrangements—owing to the accumulation of lineage-specific ampliconic regions, palindromes, transposable elements and satellites. Many Y chromosome genes expand in multi-copy families and some evolve under purifying selection. Thus, the Y chromosome exhibits dynamic evolution, whereas the X chromosome is more stable. Mapping short-read sequencing data to these assemblies revealed diversity and selection patterns on sex chromosomes of more than 100 individual great apes. These reference assemblies are expected to inform human evolution and conservation genetics of non-human apes, all of which are endangered species.

Suggested Citation

  • Kateryna D. Makova & Brandon D. Pickett & Robert S. Harris & Gabrielle A. Hartley & Monika Cechova & Karol Pal & Sergey Nurk & DongAhn Yoo & Qiuhui Li & Prajna Hebbar & Barbara C. McGrath & Francesca , 2024. "The complete sequence and comparative analysis of ape sex chromosomes," Nature, Nature, vol. 630(8016), pages 401-411, June.
  • Handle: RePEc:nat:nature:v:630:y:2024:i:8016:d:10.1038_s41586-024-07473-2
    DOI: 10.1038/s41586-024-07473-2
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    Cited by:

    1. Temitayo A. Olagunju & Benjamin D. Rosen & Holly L. Neibergs & Gabrielle M. Becker & Kimberly M. Davenport & Christine G. Elsik & Tracy S. Hadfield & Sergey Koren & Kristen L. Kuhn & Arang Rhie & Kati, 2024. "Telomere-to-telomere assemblies of cattle and sheep Y-chromosomes uncover divergent structure and gene content," Nature Communications, Nature, vol. 15(1), pages 1-12, December.

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